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Issues in Science and Technology
Librarianship |
Spring 2003 |
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DOI:10.5062/F4154F1G |
The Myers-Briggs personality typology and the Holland Vocational typology of work environments and individuals offer insights about engineering students and faculty that librarians may apply to instruction. This article provides a literature review of the two theories as applicable to library instruction; discusses the personality make-ups of engineering students, Engineering faculty, and librarians; discusses selected literature relating the two theories to learning; and provides possible applications of the Myers-Briggs system and the Holland Vocational system to information literacy or library instruction for engineering students.
The Myers-Briggs Type Indicator has been of considerable interest to Engineering faculty planning teamwork and other aspects of instruction (Bernold et al. 2000, Christy and Lima 1998; Felder et al. 1993; Godleski 1984; Kresta 1998; McCaulley et al. 1983; Scott and Scott 1996; Sloan 1998; Thomas et al. 2000; Wankat 1999; Yokomoto and Ware 1981). Knowing the Myers-Brigg type distributions among Engineering students can be of use to librarians planning library instruction for them.
Another useful typology for librarians is the one incorporated in the Holland Vocational Theory of Vocational Personalities and Work Environments which measures six vocational interests or characteristics in individuals and occupations (Holland 1997). The Holland vocational typology, less well known to the general public than the Myers-Briggs typology, has been extensively used by vocational counselors and is available for individuals to take in the form of the Self-Directed Search and the Vocational Preference Inventory. Other tests that make use of the theory are the ACT World of Work and Strong Vocational Interest Battery (Holland et al. 1994; Holland 1985). Like the Myers-Briggs system, the Holland vocational typology offers insights into engineering students' personalities, in this case, vocational personalities. A number of studies using Holland's theory have presented data on engineers or engineering students (Bruch and Krieshok 1981; Erez and Shneorson 1980; Fouad 1989; Holland 1985; Lent et al. 1989; Southworth and Morningstar 1970).
The purpose of this article is to provide background information about the two theories; discuss the personality make-ups of engineering students, engineering faculty, and librarians; discuss selected literature relating the two theories to learning; and provide possible applications of the Myers-Briggs system and the Holland Vocational system to information literacy or library instruction for engineering students.
Extroversion/Introversion refers to the two ways individuals prefer to focus their energy. Those who prefer extroversion prefer to focus their energy on activities in the outside world of people and objects, while individuals who prefer introversion prefer to direct their energy to their inner worlds of thoughts and ideas. Those who prefer Sensing prefer to receive information from their five senses and focus on concrete reality, while those who prefer Intuition prefer to receive information from their intuition and focus on possibilities and patterns. People who prefer Thinking like to make decisions objectively and logically, while people who prefer Feeling like to make decisions based on personal values. Persons who prefer Judging like to lead their lives with decisiveness and organization, while persons who prefer Perceiving like flexible and spontaneous lifestyles (Myers et al. 1998).
A person's four-letter type tends to be associated with a number of personality characteristics. (Myers 1998). People of different types tend to enjoy different college majors and occupations, although it is unethical and invalid to select any individual's job or major based on type. Many occupations are benefited from type diversity among their members, as a summary of the 16 types' experiences in librarianship shows. (Myers et al. 1998)
Study (Sample) |
Most Frequent Types (percentage of total) |
---|---|
Scott and Scott (1996) (University of Tennessee Knoxville engineering freshmen 1990-1994) |
ISTJ (13.4) ESTJ (11.7) ENTP (8.8) INTP (8.8) |
McCaulley et al. (1987) (Eight colleges and universities) | ISTJ (16.46) ESTJ (12.75) ENTJ (9.43) INTJ (9.43) INTP (8.46) ENTP (7.43) |
Felder et al. (1993) (Chemical engineering students) |
ISTJ (20.7) ESTJ (11.2) ENFP (9.5) INTP (8.6) INTJ (7.8) |
Thomas et al. (2000) (Georgia Tech engineering students) |
ISTJ (16.9) INTJ (12.3) ENTP (11.8) ESTJ (9.2) ISTP (7.7) INTP (7.2) |
Staiger (1990) (Electrical engineering students from three universities) |
ISTJ (15) ENTJ (10.9) INTJ (10.5) ESTJ (9.7) INTP (8.4) |
Sloan and Jens (1992) (Colorado School of Mines engineering students) |
ISTJ (14) INTP (12) ENTP (9) INTJ (9) |
Rosati (1997) (Canadian sample of engineering students) |
ISTJ (18.1) ESTJ (10.3) INTP (9.4) INTJ (8.5) ISTP (8.2) |
These results show a clear Thinking preference among engineering students in a variety of samples. It is notable that in all of these samples, ISTJ is the most common type for engineering students. This type is described as:
Quiet, serious, earn success by thoroughness and dependability. Practical, matter-of fact, realistic and responsible. Decide logically what should be done and work toward it steadily regardless of distractions. Take pleasure in making everything orderly and organized-their work, their home, their life. Value traditions and loyalty (Myers 1998).
Immediate implications of this description are that librarians should offer thorough, organized, practically useful instruction. Additional implications for instruction drawn from the data will be discussed below.
Instructional style has been shown to differentially affect Sensing and Intuitive types' performance in circuit analysis classes (Yokomoto and Ware 1981). In the first case, they provided "Intuitive" problems and did not coach for type differences. The Intuitive students' test scores were more linearly correlated to homework scores than Sensing students' in this case. In a second case, the instructor did provide coaching involving type differences, while still providing Intuitive problems, and there was no significant difference between Sensing students and Intuitive students' correlations of exams to homework problems. A third case repeated conditions of the first case (Intuitive instructor, no coaching, Intuitive problems) and had similar results to the first case. A fourth case used non-Intuitive problems on the exams that were quite similar to homework problems. In this case, the Sensing students' exams were more linearly correlated to homework problems than Intuitive students'. In the last case, a replication of the conditions for the second case was performed (coaching to type differences, Intuitive problems) and similar results to the second case were found.
Some of Yokomoto and Ware's observed implications for problem solving of the Sensing/Intuiting preference are worth summarizing here. Sensing types pay more attention to examples and problems; Intuitive types pay more attention to definitions, concepts, and theories. Sensing types need to be forewarned that there are concepts; Intuitives need to learn the specific methods for problem solving. Exams that contain Intuitive problems, i.e., do not replicate the homework problems, but require integrated understanding, will favor Intuitives. Coaching can be performed by stressing that there are important concepts to Sensing types and that there are important methods and routines to Intuitive types.
Librarians should appeal to both Sensing and Intuitive preferences in their instruction by offering step-by-step procedures and getting their details correct, and also by mentioning that the information skills the students learn are transferable. While Intuitive students may naturally pick up on concepts such as Boolean logic, Sensing students may need practical examples and coaching to think of other applications for tools or methods presented.
Thomas (1990) discussed other instructional issues in addition to appealing to the Sensing and Intuitive preferences. In a sample of Mechanical Engineering Technology students at Purdue, Introverts and/or Sensors preferred a lecture format, whereas Extroverts and/or Intuitives preferred a discussion format. Introverts preferred courses without laboratories, but Extroverts preferred laboratory courses. Sensing types and/or Judging types preferred tightly structured courses, rather than loosely structured courses. Thinking students became involved in cooperative education programs more than Feeling types did. Introverts and Sensing individuals preferred problems dealing with formulas and numbers, but Extroverts and Intuitives preferred problems involving principles and ideas. Introverts worked alone; extroverts tended to work in groups.
McCaulley et al. (1983) also offered implications for teaching engineering students that went beyond appealing to both Sensing and Intuitive preferences. They said that since many engineering students are logical, analytical and decisive types, they might lack needed communication and teamwork skills. Engineering faculty need to teach these skills. Less typical engineering students, such as Extroverts and Feeling types appreciate feedback and appreciation and may not receive enough from engineering faculty. McCaulley et al.'s comments are also important for librarians, since librarians need to realize that there may be "minority types" in their audience who may need a more personal style directed towards them individually. While it seems impossible for a librarian to appeal equally to all possible preferences, certainly she or he can check with students individually during an exercise to see if they need additional help.
Lawrence (1984) also reported on learning preferences, noting that Extroverts preferred talking, discussion, psychomotor activity and working with a group, whereas Introverts preferred reading/verbal reasoning, time for individual processing, and working individually, Sensing persons preferred tasks that call for carefulness, thoroughness and soundness of understanding, going step-by-step, tasks that call for memory of facts, and practical interests. Intuitives preferred tasks that call for quickness of insight and in seeing relationships, finding their own way in new material, tasks that call for grasping general concepts, tasks that call for imagination, intellectual interests, and reading. Thinking types preferred logical organization of a teacher and objective material to study, while Feeling types preferred personal rapport with a teacher and learning through personal relationships. Judging types preferred to work in a steady, orderly way, formalized instruction, prescribed tasks, and drive toward closure, completion. Perceiving types preferred to work in a flexible way, to follow impulses, informal problem solving, discovery tasks, and managing emerging problems.
The performance of different types using different media, such as self-paced instruction, distance learning, or using computer interfaces is also important for librarians' knowledge, but will only be touched upon in this paper. Sensing students performed significantly better than Intuitive students in an interactive videodisc learning situation (Matta and Kern 1991). This suggests that interactive web tutorials would perhaps be useful for Sensing engineering students, although possibly less useful for Intuitive students, who did slightly better than Sensing students in Matta and Kern's control situation of classroom learning. As an example from personal experience, I have used a web tutorial with engineering students that they used to follow along while I was lecturing, and they seemed to appreciate it. I can only guess that the reason why Sensing students like tutorials is that tutorials are generally thorough and well organized.
Discongruencies between students' learning styles and librarians' teaching styles may have significant effects on instruction. Cooper and Miller (1991) found that congruence between learning style and teaching style was significantly related to student course evaluations and student evaluations of the instructor, but not final course grades. Discongruency along the Sensing/Intuition dimension was the main source of these results. Librarians may find that some types of students do not like their instruction, and this may be reflected in course evaluations if they are collected.
Lawrence (1997) says that Thinking types do their best learning with teachers who organize the classroom with logical systems, provide feedback that shows what students do and do not accomplish, have a cool, objective approach to things, and provide clear, logical material to study and things for students to analyze. An example of a causation statement that could accomplish this is: "Ei Compendex is a database that lists engineering research articles and conference papers. Because these research articles and conference papers have in many cases undergone a process of professional peer review, or validation, the information may be of higher quality than that found in individuals' web pages." I believe from my instructional experience that engineering students seek logical explanations for statements and instructions, and I try to provide them as frequently as possible. I try to maintain a fairly objective, cool demeanor in instruction, although I do use humor, especially irony. When I have tried to appeal to engineering students' emotions, such as by expressing my sympathy for students who spend hours in the library, I have not sensed that they were particularly receptive.
Lawrence (1997) writes that the learning style preferences of Judging persons are to "have things organized in a clear plan," "have deadlines and stay well ahead of them," to do work in a steady way toward completion, to know just what they are accountable for, and to "have instruction that is organized and moves in predictable ways."
To appeal to Judging types, it is important for the librarian to structure the instruction clearly, perhaps providing a written outline, as well as pointing out what is going to be covered. If a librarian jumps from topic to topic or fails to discuss planned material, this may not be appreciated by engineering students. The librarian should be sure that instruction does not take longer that expected, since engineering faculty often have clearly stated time limits. The librarian should ensure that all equipment works as expected, since engineering students and faculty will be surprised and disappointed if it does not.
Since some students in the audience will be Sensing types and some will be Intuitive types, the librarian probably needs to include both an overview and some examples into his or her presentation. A lecture that is too detail oriented will possibly alienate the Intuitive students, while a lecture that leaves steps out and is vague will most likely alienate the Sensing students. Sensing students prefer "starting with solid facts," "going step by step in new material," "starting with known things and adding on," "starting with first-hand experience that gives practice in things to be learned," "starting with hands-on things" (Lawrence 1997). To appeal to Sensing types, a librarian might want to start with a demo of an engineering database and try to tie it into engineering students' past experience, mentioning general databases they may have used such as Proquest or Infotrac, or Web searching. They could also explain that research articles and conference papers in Ei Compendex are written by people like engineering students' professors. Intuitive types have rather different learning preferences than Sensing types. Intuitive types enjoy doing something that catches the imagination, prefer to start with interesting concepts, prefer to find their own way in new materials, enjoy exploring possibilities, prefer to sample new skills rather than practice familiar ones, and like to start with a concept or idea (Lawrence 1997). A librarian might want to introduce an interesting concept such as Boolean searching using Venn diagrams or the concept of subject headings to appeal to Intuitives. Trying to lecture to both information processing preferences is, in my opinion, the hardest part of instruction. One way that I have found to communicate to Sensing types (I am an Intuitive) is to read aloud some of the results that are found in database searches instead of just saying, "Here are the results, notice each one has a title, subject heading, etc." It is sometimes hard for me to temper abstractions and generalities with real-world details. As an Intuitive type, I have benefited from listening to Sensing colleagues discuss library services because they offer a wealth of practical, thorough, exact information and perhaps are clearer because they use language to appeal to the five senses. I think Intuitive types may at times be better at explaining concepts and giving overviews. It may be helpful to have Sensing types read over Intuitives' instructional materials and vice-versa.
Individuals may find out their Holland vocational personalities by taking the Self-Directed Search or the Vocational Preference Inventory. Multiple discriminant analysis of job analysis data has been used to indicate the probable three-letter code of occupations in the Dictionary of Occupational Titles (Gottfredson and Holland 1996).
The distance between the points of the hexagon indicates similarities or dissimilarities between persons and/or environments. An Investigative individual should share similarities with Realistic and Artistic individuals and work environments, but should be rather dissimilar to Enterprising types, which are opposite Investigative types on the hexagon. Realistic types should be similar to Conventional and Investigative types, but most dissimilar to their opposite Social types (Holland 1997).
A comparison of Holland scores of students who persisted in engineering with those who changed majors or left the university showed that the sample of students who changed their major had higher scores on the Social and Artistic scales than those of students who persisted in engineering. Students who persisted in engineering had the highest scores on the Investigative and Realistic scales, with noticeably smaller scores on Artistic, Social, Enterprising, and Conventional. By contrast, those students who changed their major had the highest score on Investigative, with moderately high scores on Realistic, Social, and Artistic (Southworth and Morningstar 1970).
The Strong-Campbell Interest Inventory, used to measure the vocational personalities of U.S. and Mexican engineering students and professionals, showed that the scores for all groups were highest for Realistic, then Investigative, then Conventional (Fouad 1989).
The Dictionary of Holland Occupational Codes classifies occupations according to the vocational preferences most required by tasks of the job. Different engineering jobs are given a number of classifications ranking the three most required preferences for the job. Selected engineering professions that engineering students may be preparing for are classified with the following three letter codes, reported in Table 2 (Gottfredson and Holland 1996).
Holland Code | Corresponding Occupations |
---|---|
RIS | Electronics design engineer Mechanical Engineer Electrical design engineer |
RIE | Ordnance Engineer Petroleum Engineer Standards Engineer Faculty member, college or university, engineering |
REI | Materials Engineer Safety Engineer, Mines |
IRS | Ceramic Engineer Aeronautical Engineer Chemical design engineer, processes Chemical research engineer Electrical research engineer Railroad Engineer Structural Engineer Hydraulic Engineer |
IRE | Aeronautical research engineer Chemical Engineer Metallurgist-extractive Biomedical Engineer Electrical Engineer, power system Nuclear Engineer Materials Scientist Marine Engineer Agricultural Engineer Software Engineer Manufacturing Engineer Civil Engineer Electrical Engineer |
IRC | Nuclear fuels research engineer Nuclear criticality safety engineer Waste management engineer, radioactive |
ISR | Safety Engineer Airport Engineer Transportation Engineer |
ISE | Product safety engineer |
IER | Engineer, soils Sanitary Engineer |
IES | Engineering manager, electronics Electronics test engineer |
IEC | Highway administrative engineer Fire protection engineer |
ICR | Reliability Engineer |
ICS | Packaging Engineer |
ERS | Sales Engineer |
EIR | Industrial Engineer |
EIC | Industrial health engineer Production Engineer |
While the expected Realistic and Investigative preferences predominate, there are differences among the engineering occupations. Industrial engineers have Enterprising aspects to their job. Some types of engineering occupations have a Social component, such as airport engineer or product safety engineer. Librarians will want to appeal to engineering students' probable Investigative and Realistic interests, but may also want to consider appealing to Enterprising, Social, and Conventional interests. To appeal to Investigative interests, librarians should offer opportunities for engineers to flex their critical and analytical muscles, and to appeal to Realistic interests, librarians should point out the practical use of information skills and allow hands-on learning opportunities.
Librarians' occupations receive various classifications in the Dictionary of Holland Occupational Codes and are reported in Table 3 (Gottfredson and Holland 1996).
SAI | Librarian |
AES | Archivist |
SER | Librarian, Special Collections |
ESI | Library consultant |
SEC | Library director |
These codes indicate that library occupations usually require a mixture of Artistic, Social and Enterprising tasks. If librarians primarily have Artistic interests, then they may have expressive values foreign to engineering students and faculty. My own experience bears out this theory. A handout I used for freshmen engineers failed because it was designed to appeal to Artistic interests, rather than Investigative or Realistic interests. I had used a bridge design metaphor to lay out text on the handout. It met with lukewarm interest at best.
A test of scales of Engineering Self-Efficacy ad Science Self-Efficacy administered to students found that Engineering Self-Efficacy correlated with both the Realistic and Investigative scales, whereas Science Self-Efficacy correlated with the Investigative scale (Lent et al. 1989).
Holland's (1985) use of the Vocational Preference Inventory, on Realistic and Investigative individuals indicates that Realistic males are hardheaded, practical, mechanically inclined, lacking insight, frank, and have poor interpersonal skills. Realistic females are asocial, hardheaded, practical, and have technical competencies, but poor interpersonal skills. Investigative males are scientifically inclined, have science and math ability, and are achieving, independent, shy, radical, curious (open), reserved, and planful. Investigative females are scientifically inclined and shy, have science, research and math ability, and are radical, achieving, independent, curious (open), reserved, and planful.
To appeal to Investigative engineers, librarians might ask students to analyze a search expression and a set of results to determine why it worked or didn't work to find literature on a topic. Analytical prowess is typical of those who have Investigative interests. I try to make my classes interactive, asking several questions that will appeal to Investigative interests. For example, I will explain the call number system to the class and later ask a question that requires application of that knowledge. In addition the librarian needs to motivate Investigative students by emphasizing that searching for engineering literature could help students increase their knowledge and problem-solving abilities. The librarian should be prepared to motivate Realistic students by explaining the practical significance of tools she is presenting.
Artistic type librarians who value expression may be well qualified to create innovative instruction for Realistic and Investigative engineering students (as long as they try to appeal to Realistic and Investigative interests), since Artistic types are typically quite skilled with communication. Librarians who have Social as one of their vocational personality characteristics should feel a sense of satisfaction in helping Engineering students to learn how to search for information, even if these students are vocationally somewhat different from librarians.
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